A.M. Abramov1, S.G. Gurzhin2, V.I. Zhulev3, M.B. Kaplan4, V.G. Kryakov5, S.V. Nikitin6, E.M. Proshin7, A.S. Togulov8, A.V. Shulyakov9

1–9 FSBEI HF Ryazan State Radio Engineering University named after V.F. Utkin (Ryazan, Russia)

1 abramov.a.job@yandex.ru, 2 gurzhin@mail.ru, 3 zhulev.v.i@rsreu.ru, 4 kaplan.m.b@iibmt.rsreu.ru, 5 kryakov.rgrtu@mail.ru, 6 nikitin.s.v@list.ru, 7 proshin39@mail.ru, 8 togulov.a.s@rsreu.ru, 9 shul_andr@mail.ru

The effectiveness of the technical means for generating therapeutic magnetic fields in the RelaxMag chronomagnetotherapy complex largely depends on the precise dosing of their biotropic parameters and the visual representation of the magnetic induction distribution within the patient's workspace. To quantitatively assess the actual parameters of magnetic fields emitted by the inductor system of intelligent unified cell modules during their physical modeling, development, production, technical testing, and functional monitoring, an automated system for precise spatial positioning of a highly sensitive, precision three-dimensional magnetic field sensor and its visualization is required. Therefore, it was proposed to develop such a system based on a personal computer, a commercial 3D printer, and virtual instrumentation programs in the LabVIEW environment.

To demonstrate the feasibility of implementing a high-precision automated system for measuring magnetic field distribution and visualizing it using standard, certified hardware and proprietary software.

A methodology and technical means have been developed, implemented, and tested to quickly and accurately measure and visualize the magnetic field distribution within the magnetically emitting cell module of the RelaxMag chronomagnetotherapy system's field-forming system with high resolution.

The developed automated system will enable rapid, high-precision, and high-resolution measurements of the actual biotropic parameters of therapeutic magnetic fields, monitoring and testing the performance of the magnetically emitting cell modules of the RelaxMag chronomagnetotherapy system, and will also quickly visualize the magnetic field distribution within the workspace to optimize its configuration by varying the currents in the cell module's inductors.

Abramov A.M., Gurzhin S.G., Zhulev V.I., Kaplan M.B., Kryakov V.G., Nikitin S.V., Proshin E.M., Togulov A.S., Shulyakov A.V. Automated system for measuring the magnetic field distribution of the cell-module of the RelaxMag chronomagnetotherapy complex // Biomedicine Radioengineering. 2026. V. 29. № 5. Р. 6-17. DOI: https://doi.org/10.18127/j15604136-202605-02

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